63 results about "Mineral deposition" patented technology

A method for the packaging of electronic components, including the mounting of at least one electronic component on its active face side to a base, the base including electrical contacts on an external face and connection pads on a face opposite the external face, and including a first series of via holes connecting the electrical contacts and the connection pads and a second series of holes for use in aspiration. A deformable film is deposited on the face opposite to the active face of the electronic component or components. The deformable film is aspirated through the second series of holes from the face opposite the external face of the base, so as to sheath the electronic component or components. The method may furthermore include, on top of the deformable film, a mineral deposition to provide for the hermetic sealing of the components and a conductive deposition to provide for the shielding. Such an application may find particular application to surface wave filters.

A method for treating a wellbore (or well casing) and the contiguous wellbore area to remove scale (mineral deposits comprised of, e.g., BaSO4, CaCO3, etc.) in the context of hydrocarbon recovery and other applications is disclosed, said method including contacting the scale with a fluid comprised of an ionic liquid or liquids.

The present invention relates to a method of treating a glazing panel from an inside location. Moreover, the present invention relates to a method of treating glazing panels used in windows and patio doors. Initially, an orifice is formed on both the inside and outside panes on windows and on the side and outside frames of patio doors. Then, particulate matter such as dirt, dust, and mineral deposits are purged from the enclosed volume of the glazing panel by applying a cleaning solution via the orifice. Next, a valve is attached to the outside pane/frame to cover the orifice whereby the valve is designed to reduce the amount of precipitation or matter from entering while allowing air to exit the glazing panel. Finally, a seal is used to cover the orifice on the inside pane or side frame to ensure that the building air does not enter the interior of the glazing panel. The method can also be used to treat windows for high altitude transport, or to prevent explosion in the presence of intense heat.

The invention discloses a manufacturing method for a microorganism heat-insulation building material. The manufacturing method for the microorganism heat-insulation building material comprises the following steps: taking a bacteria solution which has a mineral deposition function and is prepared from microorganisms and a corresponding nutrient solution as raw materials; directly carrying out mineral deposition on various lightweight aggregates or compounding inorganic or organic cementing materials; and carrying out microorganism inactivation and pore forming to obtain novel microorganism heat-insulation plates, heat-insulation blocks, heat-insulation concrete, heat-insulation mortar and the like. By the method, the physical and mechanical properties of an existing traditional heat-insulation material can further be improved through a microorganism mineralization function and an inactivation process. Microorganism mineral deposition products are used as cementing material manufacturingand modifying building heat-insulation materials, contradiction between strength and heat insulation of the heat-insulation materials can be solved effectively, cementing materials such as cement arereduced and are even prevented from being used, resource consumption are reduced remarkably, mine excavation frequency is reduced, pollution emission is eliminated, and environment stress and haze influence are relieved. The manufacturing method for the microorganism heat-insulation building material is an environmentally friendly building material manufacturing method, and has good economic benefit, environment benefit and social benefit.

Briefly, and in accordance with the foregoing, disclosed is a spray head for use with, in combination with a beverage making apparatus, as a replacement for other spray heads and a method of using a spray head. The spray head receives liquid from a liquid dispensing path of the beverage making apparatus and distributes liquid over a beverage making substance retained proximate the spray head. The spray head includes two pieces, a first piece for connection to the liquid dispensing path and the second piece which is flexible and removable attachable to the first piece. A cavity is defined between the first and second pieces. Water received form the liquid dispensing path collects in the cavity. The second piece or body portion includes a plurality of holes for dispensing and distributing water from the cavity over the beverage substance. The spray head is removable from the beverage making apparatus for facilitating direct contact and flexion cleaning of the surfaces of at least the body portion of the spray head to remove particles and mineral deposits therefrom.

A pulse of over six kilovolts with a duration of 200 nanoseconds causes an explosion that fragments a mineral deposit with metals embedded therein. The fragmentation separates the metals from the mineral. A conditioning electromagnet temporarily magnetizes the metals. A sorting magnet attracts one of the magnetized metals.

A biofilm reducing agent (BRA) and a mineral deposit distorting agent (MDDA) are admixed to irrigation water in amounts sufficient to substantially eliminate biofilm formation in the emitters (14) of an irrigation system (10) and produce amorphous mineral deposits in the emitters that are easily washed away by the irrigation water as it flows through the emitters (14). The BRA may be an oxidizer selected from the group consisting of chlorine, ozone, chlorine dioxide, hydrogen peroxide, hydroxy peracitic acid, iodine, bromine, hydrogen dioxide, chlorate salts, chlorite salts and hypochlorite compounds and mixtures thereof. The MDDA is a phosphonate selected from the group comprising AMP, ATMP, HEDP, EDTMPA, HMDTMPA, DETPMPA, BHMPTMPA, PBTC, HPA, PCA, NTMP, and DTPMP.

A composition for reducing deposition of a mineral salt from an aqueous supersaturated solution onto a solid surface in contact with the aqueous supersaturated solution which composition comprises a dispersion of either (i) seed crystals of the mineral salt in an aqueous solution of the mineral salt or (ii) seed crystals of a salt isomorphous with the mineral salt in an aqueous solution of the isomorphous salt wherein the dispersed seed crystals are of Mean particle size of less than 2.5 microns.

A method and system (10) for utilizing water to transfer heat are provided. In one embodiment, the system (10) includes two water softeners (16) for removing the hardness of the feed water. The water softeners (16) are coupled to a filtration device (14) and deliver the softened water thereto. The filtration device (14) removes minerals from the water so as to produce a filtered water volume and a rejected water volume. The filtration device (14) delivers the filtered water volume to a heat exchanger (12). The heat exchanger (12) evaporates the filtered water volume and produces a mineral deposit volume. The mineral deposit volume is delivered to the filtration device (14) for removal of the mineral deposits so as to produce a recycled water volume and a blowdown water volume. Thereafter, the recycled water volume is delivered to the heat exchanger (12) for reuse, and the blowdown water volume is discharged to the waste vessel (24).

A process for producing metal compounds directly from underground mineral deposits including the steps of forming a borehole at a site into a mineral deposit containing metal compounds, inserting a slurry-forming device having a nozzle into the borehole adapted to direct pressurized water through the nozzle into the mineral deposit, supplying pressured water through the nozzle into the mineral deposit forming a mineral slurry containing metal compounds, extracting the mineral slurry containing metal compounds through the borehole, leaching the mineral slurry to convert the metal compounds to a soluble form in a leach solution, and removing metals and metal compounds by treating the leach solution with an extraction treatment adapted to remove the metal products. Steps of leaching the mineral slurry and removing metal products are performed at a location remote from the borehole site. Alternatively, the step of removing metal products from mineral slurry may be accomplished by pyrometallurgical processes.

A method for extracting mineral deposits in a mineral reserve, a portion being accessible from a sloping surface and the remaining portion being inaccessible, is disclosed. The sloping surface is mined to create a bench and highwall for providing access to the mineral reserve around the accessible portion. Then, a surface is formed in the highwall to create an insertion highwall between an endwall extending from the insertion highwall and the inaccessible portion of the mineral reserve. A starter entry is created for cutting into the mineral reserve across the entire length of the insertion highwall from the endwall to the inaccessible portion of the mineral reserve. Roof supports are advanced into the starter entry with spoil added to form a starter passage from the endwall to the inaccessible portion of the mineral reserve. Shortwall or longwall mining techniques are then used to mine the mineral reserve along the starter passage. Canopies are positioned at both ends of the starter passage to seal the passage and provide ventilation of the active mining area by the introduction of air along the face of the mineral seam. A single-gate passage is formed extending from the insertion highwall adjacent the inaccessible portion of the mineral reserve to allow the continuous miner to form another opposing endwall. Mining then continues in the starter passage along the insertion highwall from the single-gate passage to the opposing endwall, thereby forming a production passage into which the roof supports are farther advanced with gob forming behind.

An iron holder having an elongate vertical rear wall, an iron support compartment integrally formed with the rear wall intermediate the ends thereof suitable for supporting a steam iron in either of a toe down or a toe up position therein, and a reservoir compartment integrally formed at a lower end of the rear wall and spaced beneath the iron support compartment for collecting water drained from the iron or which may leak from the iron to reduce the formation of mineral deposits in or on the iron.

The present invention relates to a chlorine dioxide solution with a lowered pH allowing for the removal of mineral deposits in varying industries and for varying surfaces and systems. The chlorine dioxide solution has a pH lower than 5. A method of preparing and using a chlorine dioxide solution with lowered pH to remove mineral deposit and sanitize is also present.

An improved filter capable of operating in a backwash mode that creates an upward swirling flow in the hollow interior of the pool filter container. During the backwash cycle, water or air and water are injected into the pool filter container at an angle. In the preferred embodiment, a mixture of water and air are injected into the filter container through exit jets located within the hollow interior of the filter container proximate to the bottom of the filter container. This causes the filter media to swirl upward mixing thoroughly with the backwash water promoting the separation of the mineral deposits from the filter media.

The present invention relates to a non-aqueous denture adhesive composition comprising a safe and effective adhesive amount of a denture adhesive, a safe and effective amount of an anticalculus agent; and non-aqueous denture adhesive carrier; wherein the anticalculus agent is a material effective in reducing calcium phosphate mineral deposition related to calculus formation. The present invention further relates to a method of delivering an anticalculus agent to the oral cavity and teeth, by applying the above composition to dentures, directly to the oral cavity, or applying it to both, and thereafter securing the dentures to the oral cavity.